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What we did in class today: Monday Jan. 7 th , 2013 EOC review entry tasks Review of EOC Topic Assessment #1 Science PACE 8 review of key scientists, terms and data

What we did in class today: Monday Jan. 7 th , 2013

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What we did in class today: Monday Jan. 7 th , 2013. EOC review entry tasks Review of EOC Topic Assessment #1 Science PACE 8 review of key scientists, terms and data. EOC Review Entry Tasks. Question. Answers. 27. 28. 27. Define work. Write the equation. What units do we use? - PowerPoint PPT Presentation

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Page 1: What we did in class today: Monday Jan. 7 th , 2013

What we did in class today: Monday Jan. 7th, 2013

• EOC review entry tasks• Review of EOC Topic Assessment #1• Science PACE 8 review of key scientists, terms and

data

Page 2: What we did in class today: Monday Jan. 7 th , 2013

EOC Review Entry Tasks

Question27. Define work. Write the equation. What units do we use?

28. Define power. Write the equation. What units do we use?

Answers27.

28.

Page 3: What we did in class today: Monday Jan. 7 th , 2013

This is your PACE folder. After the next step the cover should look like mine.

Page 4: What we did in class today: Monday Jan. 7 th , 2013

Solar Experiment

Key TermsWhat theory or law did you

use for your hypothesis? • • • • • Equations:

Key Scientists• •

Page 5: What we did in class today: Monday Jan. 7 th , 2013

Wind1st Law of Thermodynamics

ampere

Betz limit

driveshaft

electrical current

electrical energy

energy conversion

force

generator

KELaw of Conservation of Energy

mechanical energy

newton

P= V x I

PE

power

renewable resource

rotor

turbine

volt

wind

wind speed

work

Solar1st Law of Thermodynamics

ampere

electrical circuit

electrical current

electrical energy

electromagnetic radiation

energy conversion

Generator

KE

law of conservation of energy

mechanical energy

nuclear fusion

P = V x I

PE

photovoltaic cell

radiant energy

renewable resource

solar cell

solar energy

voltage

watt

Hydro1st law of thermodynamicselectrical energyenergy conversionforcegeneratorgravityhydroelectric damhydroelectric powerKE

law of conservation of energymassmechanical energyNewton's 2nd LawP = V x IPascal's law PErenewable resourcereservoirturbinew= f x dworknewton

Geothermal1st law of thermodynamicsconductionconvectioncore, magma, crust, plateselectrical energyenergy conversionforcegeneratorgeothermal energyheathydrothermal energyhydrothermal reservoirsinsulatorKE

law of conservation of energyP = V x IPascal's law PErenewable resourcetemperaturethermal energythermometerturbinew= f x dwork

Simple Machines

force

friction

joule

law of conservation of energylever, pulley, inclined plane

machine

mechanical advantage

mechanical efficiency

power

watt

work

work input

work output

newton

Newton's 1st Law

Newton's 2nd Law

Newton's 3rd Law

Page 6: What we did in class today: Monday Jan. 7 th , 2013

PACE HELP!Law of Conservation

of EnergyNewton’s 1st Law Newton’s 2nd Law Newton’s 3rd Law

Scientists

•James Prescott Joule

•James Watt

•Antoine Lavoisier

•Ampère, André Marie

•Faraday, Michael

•Volta, Alessandro

•Isaac Newton

•Galileo Galilei

•Daniel Bernoulli

•Blaise Pascal

•Archimedes of

Syracuse

•Isaac Newton

•Galileo Galilei

•Daniel Bernoulli

•Blaise Pascal

•Archimedes of

Syracuse

•Isaac Newton

•Galileo Galilei

•Daniel Bernoulli

•Blaise Pascal

•Archimedes of

Syracuse

Page 7: What we did in class today: Monday Jan. 7 th , 2013

Law of Conservation of Energy

Newton’s 1st Law Newton’s 2nd Law Newton’s 3rd Law

Equations

Equations Potential Energy = m

x g x h (m=mass g=gravity h=height)

Kinetic Energy = ½mv2

(m=mass v=velocity)

Mechanical Energy = PE + KE

(PE= potential energy KE= kinetic energy)

Chemical Energy = ????

Density = mass/volume

Work = force x distance

Power = work/time WIND SWEPT AREA? SOLAR-INVERSE LAW

EquationsVelocity = d/t

Acceleration = Vf

-VI/time

A = F/m or F = m x a

P = m x vmomentum = mass x velocity

Δv= g x tvelocity of a falling object = g (9.8m/s2) x time

Pressure = force/areaPressure = N/m2

Density = mass/volume

EquationsVelocity = d/t

Acceleration = Vf

-VI/time

A = F/m or F = m x a

P = m x vmomentum = mass x velocity

Δv= g x tvelocity of a falling object = g (9.8m/s2) x time

Pressure = force/areaPressure = N/m2

Density = mass/volume

EquationsVelocity = d/t

Acceleration = Vf

-VI/time

A = F/m or F = m x a

P = m x vmomentum = mass x velocity

Δv= g x tvelocity of a falling object = g (9.8m/s2) x time

Pressure = force/areaPressure = N/m2

Density = mass/volume

Page 8: What we did in class today: Monday Jan. 7 th , 2013

Trial 1 Trial 2 Trial 3 Averages0123456

Graph #1 Surface Friction Lab

SandDirtGravel

Type of Surface Material

Dist

ranc

e Tr

avel

ed (m

)

This is how the front of your folder should look after the next step.

Page 9: What we did in class today: Monday Jan. 7 th , 2013

Draw your graph! Under your chart.

Trial 1 Trial 2 Trial 3 Averages0

1

2

3

4

5

6

Graph #1 Surface Friction Lab

SandDirtGravel

Type of Surface Material

Dist

ranc

e Tr

avel

ed (m

)

Page 10: What we did in class today: Monday Jan. 7 th , 2013

Label your independent and dependent variables.

Trial 1 Trial 2 Trial 3 Averages0

1

2

3

4

5

6

Graph #1 Surface Friction Lab

SandDirtGravel

Type of Surface Material

Dist

ranc

e Tr

avel

ed (m

)

INDEPENDENT VARIABLE

DEP

END

ENT

VARI

ABLE

Page 11: What we did in class today: Monday Jan. 7 th , 2013

Define the units you used for the variables.

Trial 1 Trial 2 Trial 3 Averages0

1

2

3

4

5

6

Graph #1 Surface Friction Lab

SandDirtGravel

Type of Surface Material

Dist

ranc

e Tr

avel

ed (m

)

INDEPENDENT VARIABLE

DEP

END

ENT

VARI

ABLE

Meter= distancetraveled in metric units

Page 12: What we did in class today: Monday Jan. 7 th , 2013

Next to or underneath your graph answer the following prompt.

•Using your averages describe the outcome of your PACE experiment.

•In one or more of the trials was there a time where the data seems off or inconsistent. Circle it, or star it.

•What might have happened during that event? Explain.

Page 13: What we did in class today: Monday Jan. 7 th , 2013

Amusement Park Energy and Motion

1. Divide your poster into 4 sections.2. Each section has one of the following topics:

• concessions • animated rides• roller coaster • park transportation

Page 14: What we did in class today: Monday Jan. 7 th , 2013

Chemical energy

Thermal Energy

Kinetic Energy

Potential Energy

Ther

mal

Ene

rgy

betw

een

car a

nd tr

acks

Sound Energy

Page 15: What we did in class today: Monday Jan. 7 th , 2013

Amusement Park Energy1. Draw the parts of your amusement park. Remember each section can have more than 1 object.2. Each person must label the following items in their posters.

A. Places where the following forms of energy are found. Label the place and the form of energy.

• Potential energy• Kinetic energy• Mechanical energy• Chemical energy• Thermal energy• Nuclear energy• Sound energy• Conduction • Convection• Radiation• Radio wave• Microwave• Ultra-violet wave• Infrared wave

•Visible light wave•Transverse wave•Longitudinal wave•Electromagnet•Electricity•5 Energy conversions-each must have at least 3 conversions•Non-renewable energy resource•Renewable energy resource•Recyclable energy resource